|
|
|
Varied, Effective Hand Protection
BY THOMAS C. DOLAN |
At first thought, it might appear that all a worker has to do to
protect his hands is put on a pair of gloves. And there are, in
fact, different variations of all-purpose gloves that can offer
protection
in a number of different environments. But there are also specific
gloves for specific hazards.
It’s not surprising, therefore, that manufacturers tend to approach
this category of hand protection in a variety of different ways.
Here is a brief overview of offerings from five manufacturers. One
focuses on a particular aspect of protection, a second offers a
variety of basic all-purpose gloves, a third offers gloves to match
the type of hazard, and two offer innovative gloves.
At Safetec of America, Inc., Buffalo, NY, aloe vera is added to all
of their gloves, says Kelly Ticco, marketing manager. This adds a
healing, moisturizing element which can protect hands from the
irritations of the gloves themselves, as well as protect from
outside contaminants.
“We also offer waterless canisters for infection control, plus
anti-microbial wipes, which are also waterless products which don’t
need water. We also have an anti-microbial soap which does use
water.”
Ticco explains there are specific rules and regulations set forth in
the health care and dental industries that have guidelines for hand
washing. The waterless dispensers and wipes are also often
used in schools.
“In industrial situations these products are used for general hand
hygiene to prevent sickness. There are all kinds of situations in
which if you don’t wash your hands frequently you can be
contaminated,”
Ticco continues. “Waterless sanitizers are recommended for use in
absence of the easy availability of soap and water.”
Whereas OSHA offers some guidelines in terms of washing hands; that
agency doesn’t specify particular gloves for particular tasks, says
Michael Lopez, marketing manager, Protective Industrial
Products, Inc., Guilderland Center, NY.
“The most OSHA will says is that you need to provide hand
protection.” Protective Industrial Products offers genera1 purpose
gloves in a wide range of hazard protections, Lopez says.
Within this broad range, there are variations to meet different
sorts of usage, such as parts handling or fabrication; or they have
specific properties, such as cut resistance. One new area, Lopez is
seeing,
he says, “is in food processing where people are looking for gloves
with anti-bacterial and anti-microbial properties to reduce the
possibility of cross contamination.”
Lopez sees a general trend away from materials such as brown jersey,
canvas especially leather, because of the unstableness of pricing.
“Instead we’re seeing a trend toward more string knit,
coated, and seamless gloves, such as polyurethane, latex, and
others,” Lopez says. “These are less expensive, wear just as long,
and are more comfortable.”
When asked about the allergy problems sometimes associated with
latex, Lopez concedes, “There does seem to be a little more
potential for problems there.
But, as of now, people are not running to the hills to get away from
latex.” On the other hand, Fred Buchanan, sales director, QRP, Inc.,
Tucson, AZ. says, “Generally there has been a trend
away from latex because of allergic sensitivity to the proteins in
latex, which many people have. There is also a trend toward
powder-free gloves because of both allergic reactions and
contamination
potential from powdered gloves.
Buchanan explains that the wide variety of gloves offered by his
company are separated by categories of usage. These include general
dirt and grime protection as in repairing, chemical resistant, and
protection from electrostatic discharge. There are also categories
for heat and cold as well as dry and wet applications.
In addition to generally chemical resistant gloves, there are also
specific gloves made to protect against specific chemicals. All the
gloves are made out of a dipped polymer or nylon.
A highly specialized glove is one for a dry box, Buchanan says.
These are gloves typically with a heavier thickness.
Whereas a typical glove might be from five to eight mils thick, the
dry box one would range from 15 to 30 mils. The glove covers the
hand and goes up to the shoulder. The dry box or isolation chamber
is
attached to an eight inch port into which the worker reaches to deal
with materials usually sitting on a desk top or work table.
“There has been some increase in the trend toward micro-electric and
biotech clean room drugs, away from general purpose gloves,”
Buchanan says. “But this is not a big trend. Part of it is being
accomplished through automation which keeps hands out of the
process.
“Where there is definitely a trend is the effort to reduce
contamination in a wide variety of processing environments. A new
innovation, in terms of both manufacturing and gloves has to do with
reducing vibration,” says Lynn Ashton, president, Viscolas, Inc.,
Chattanooga, TN.
The cumulative deleterious effects of being exposed to vibrating
tools over periods of time have been recognized relatively recently.
“The good news is that manufacturers have recognized vibration
damage over the long haul, so most of them are trying to get the
vibration out of their products.”
However, in the long-term, workers will be exposed to less and less
vibration in the work place, though that is still a while off. Also,
Ashton says, insofar as these less vibrating tools do reach the
market place, many companies won’t be able to purchase all new
tools. “In the interim,” Ashton says, “the products we offer will
definitely help.”
One is a tool wrap which can cover the handle of the tool. This
helps reduce the vibration coming from the handle.
This saves workers from the necessity of putting on gloves. Also, if
the tools are used by several different people on differing shifts,
then the same wrap works for everyone.
The drawback to this solution, Ashton says, “is that all the good
wraps used to lesson vibration tend to be soft. And soft material
will not hold up under harsh conditions. In these situations,
gloves, with the soft vibration dampening material inside, are a
much better bet.”
An example of a brand new technology made to protect against a
hazard from which previously there was not good protection has been
offered by HexArmor, Inc., Grand Rapids, MI.
“We’re just two-and-a-half-years old and are founded on a new
technology,” says Steve VanErmen, president. “There have been high
levels of protection against cuts, but not punctures. Our products
address punctures.”
Typically, VanErmen explains, products using tough materials such as
KEVLAR or SPECTRA, do a good job preventing cuts and lacerations,
but are vulnerable to punctures. These can come
from flying bits of metal or glass shards or hypodermic needles. In
fact, the original technology came from surgical clinics in which
healthcare workers trying to insert a needle into a patient,
especially one struggling, would often inadvertently puncture
themselves.
Although HexArmor doesn’t sell its products to the healthcare market
at this time, it is still focused on these needs.
A lot of people cleaning out garbage or taking trash bags out of
restaurants are at risk.
“It’s a serious problem,” VanErmen says. “Even wood splinters can
puncture.”
HexArmor uses a basic fabric to which are attached small guard
plates, roughly analogous to the steel pieces on the uniforms of
medieval knights. These, however, are made not of metal, but a
polymer composite, which gives hardness, and these pieces are
interlocking in repeated geometric patterns. They are spaced in such
a way that, though there are small holes, they are so small nothing
can get through. This material is fashioned into gloves but can also
cover different parts of the body.
“The gloves are very soft and flexible and allow you to bend and
flex,” Van Ermen says. “They protect against cuts, and punctures
too.” FSM
|
|
|